The peeling apart of layered materials is common in nature and has been used by humans
in myriad applications since prehistoric times. Over the past century, a wide range of peel …

Micropatterned materials have developed in nature over 3.8 billion years, with remarkable
performance. Nature inspiration is the process of understanding biological mechanisms and …

Adhesives are typically either strong and permanent or reversible with limited strength.
However, current strategies to create strong yet reversible adhesives needed for wearable …

Sensitivity is a crucial parameter for flexible pressure sensors and electronic skins. While
introducing microstructures (eg, micro-pyramids) can effectively improve the sensitivity, it in …

On‐skin electrodes function as an ideal platform for collecting high‐quality
electrophysiological (EP) signals due to their unique characteristics, such as stretchability …

Advances in soft robotics, materials science, and stretchable electronics have enabled rapid
progress in soft grippers. Here, a critical overview of soft robotic grippers is presented …

Electronic skin (e‐skin) technology is an exciting frontier to drive the next generation of
wearable electronics owing to its high level of wearability, enabling high accuracy to harvest …

Rapid progress in micro-and nanotechnologies such as lab-on-a-chip (microfluidic
networks, sensors, actuators, and connectors), soft lithography (replica moulding …

In the course of evolution nature has arrived at startling materials solutions to ensure
survival. Investigations into biological surfaces, ranging from plants, insects and geckos to …

Biomimetic material development takes inspiration from biological materials and organisms
that possess extraordinary properties or appearance, such as excellent mechanical strength …